Recent progresses in additive manufacturing have inspired new technologies, such as direct laser writing technique, based on two-photon polymerization (2 PP), which complements and further enriches the nanofabrication tools portfolio. In this work, we combine 2 PP and our mask-free scanning probe assisted ‘direct-write patterning’ (DWP) method to allow for: a) the fabrication of micro-bridge structures with sub-micrometer resolution, b) selective synthesis of crystalline ZnO nanowires at predefined locations, respectively. This synergistic approach enables cantilever probe patterning of catalysts directly on suspended micro-bridges for in-situ CVD growth of nanoscale material, in a templated manner. The study reported here represents the first proof-of-concept experiments demonstrating versatile and scalable methodology, which can be applied and straightforwardly extended to grow a variety of other nanomaterials, in a controlled and selective fashion, on freestanding micro/nanoscale structures, whose size and geometry can be conveniently varied via templating of sacrificial 2 PP polymeric scaffolds. Finally, the demonstration of the possibility to integrate this new approach with the conventional lithography techniques provides a step forward to the development of the novel class of hybrid polymer-silicon-1D or -2D materials, and systems. The quality of the produced ZnO nanowire assemblies was assessed using several physical characterization methods.

Enabling a Novel Approach to a Controlled Fabrication of 1D Crystalline Nanowires on Suspended Microstructures of Arbitrary Geometries Using Two Direct-writing Technologies / Mccormack, K.; Schaper, N.; Kim, Y.; Hensley, D. K.; Kravchenko, I.; Lavrik, N. V.; Gosztola, D. J.; Pantano, M. F.; Kuljanishvili, I.. - In: MATERIALS TODAY NANO. - ISSN 2588-8420. - 20, 2022 (December):100241(2022), pp. 1-9. [10.1016/j.mtnano.2022.100241]

Enabling a Novel Approach to a Controlled Fabrication of 1D Crystalline Nanowires on Suspended Microstructures of Arbitrary Geometries Using Two Direct-writing Technologies

Kim Y.;Pantano M. F.;
2022-01-01

Abstract

Recent progresses in additive manufacturing have inspired new technologies, such as direct laser writing technique, based on two-photon polymerization (2 PP), which complements and further enriches the nanofabrication tools portfolio. In this work, we combine 2 PP and our mask-free scanning probe assisted ‘direct-write patterning’ (DWP) method to allow for: a) the fabrication of micro-bridge structures with sub-micrometer resolution, b) selective synthesis of crystalline ZnO nanowires at predefined locations, respectively. This synergistic approach enables cantilever probe patterning of catalysts directly on suspended micro-bridges for in-situ CVD growth of nanoscale material, in a templated manner. The study reported here represents the first proof-of-concept experiments demonstrating versatile and scalable methodology, which can be applied and straightforwardly extended to grow a variety of other nanomaterials, in a controlled and selective fashion, on freestanding micro/nanoscale structures, whose size and geometry can be conveniently varied via templating of sacrificial 2 PP polymeric scaffolds. Finally, the demonstration of the possibility to integrate this new approach with the conventional lithography techniques provides a step forward to the development of the novel class of hybrid polymer-silicon-1D or -2D materials, and systems. The quality of the produced ZnO nanowire assemblies was assessed using several physical characterization methods.
2022
100241
Mccormack, K.; Schaper, N.; Kim, Y.; Hensley, D. K.; Kravchenko, I.; Lavrik, N. V.; Gosztola, D. J.; Pantano, M. F.; Kuljanishvili, I.
Enabling a Novel Approach to a Controlled Fabrication of 1D Crystalline Nanowires on Suspended Microstructures of Arbitrary Geometries Using Two Direct-writing Technologies / Mccormack, K.; Schaper, N.; Kim, Y.; Hensley, D. K.; Kravchenko, I.; Lavrik, N. V.; Gosztola, D. J.; Pantano, M. F.; Kuljanishvili, I.. - In: MATERIALS TODAY NANO. - ISSN 2588-8420. - 20, 2022 (December):100241(2022), pp. 1-9. [10.1016/j.mtnano.2022.100241]
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